Position and Angular control using Fuzzy Tuned PID Controller for Mobile Robot Path Tracking

Muhammad Razmi Bin Razali, A. Faudzi, Abu Ubaidah bin Shamsudin
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Abstract

Analyzing unstructured gain data has been a growing interest among researchers, resulting in valuable information in many fields such as path planning, and others. Furthermore, the Fuzzy Logic Controller (FLC) has simplified the managing unstructured gain data on the simulator such as Gazebo. FLC and PID controller can be used as a solution to recognize path planning entities in the collision-free environment based on heuristic solution. However, without proper selection of unstructured gain data of PID such as proportional, derivative and integral, the performance maybe compromised. In this paper, PID and FLC is designed in series for position and angular control to overcome the multi-representation and the problem of uncertainty contexts. It will be able to recognize the Fuzzy Tuned PID controller gains with limited supervised data accurately and take fast and precise intervention. The efficient and precise algorithms help the mobile robot to take immediate and appropriate intervention, thus helping to preserve the path planning. Finally, in line with the FLC and PID controller, this study will fulfill two elements in the Control Signal Distance (CSD) and Control Signal Angle (CSA) to produce precise and optimal mobile robot path tracking.
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基于模糊自整定PID的移动机器人位置和角度控制
分析非结构化增益数据已经引起了研究人员越来越多的兴趣,在许多领域,如路径规划等产生有价值的信息。此外,模糊控制器(FLC)简化了Gazebo等仿真器对非结构化增益数据的管理。FLC和PID控制器可以作为一种基于启发式解的无碰撞环境下路径规划实体识别的解决方案。但是,如果PID的比例、导数、积分等非结构化增益数据选择不当,可能会影响PID的性能。本文将PID和FLC串联设计用于位置和角度控制,以克服多表示和不确定环境的问题。它将能够在有限的监督数据下准确识别模糊调谐PID控制器增益,并采取快速精确的干预。高效、精确的算法有助于移动机器人采取及时、适当的干预,从而有助于保持路径规划。最后,结合FLC和PID控制器,实现控制信号距离(CSD)和控制信号角度(CSA)两个要素,实现精确、最优的移动机器人路径跟踪。
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